A forceps comprising a first jaw and a second jaw arranged along a longitudinal axis of the forceps for relative movement toward and away from one another. The first and second forceps jaws have respective first and second jaw surfaces facing each other. The first and second jaw surfaces have a serrated surface texture at least on a distal part thereof. A serration direction of the serrated surface texture is at an angle which is non-perpendicular to the longitudinal axis, resulting in additional profile structure elements at a tip portion surface, allowing to handle and manipulate fine tissue materials such as membranes in an eye.

Provided is an intraocular lens exchanger for moving a foldable intraocular lens (IOL), the intraocular lens exchanger including: an outer tube having a first passage formed in a forward/rearward direction; an inner tube disposed to be movable along the first passage and having a second passage formed in the forward/rearward direction; and a variable tube extending from a front end of the inner tube to form a variable passage connected to the second passage, in which the variable tube has an extension part having a width that increases forward in an unconstrained state in which the variable tube is not positioned in the first passage, and the extension part is provided to be elastically deformed when the unconstrained state changes to a constrained state in which at least a part of the extension part is received in the first passage.

The present disclosure describes a three-pronged forceps. The forceps are particularly useful for removing an intraocular lens from an eye.

An ophthalmic surgical cutting apparatus for cutting biological material including a handle, an outer tube attached to the handle and having a closed tip, a port formed in a side wall of the outer tube with a cusp formed by two or more intersecting surfaces, and an inner tube slidable within the outer tube and having a longitudinal axis and an open tip. The inner tube is in fluid communication with the handle, and the cusp of the port and the open tip interface during a cutting motion to fracture and cut biological materials and direct cut materials radially inward into the port.

A device (10) for removing debris from tissue around an eye is disclosed. The device (10) includes an eyecup (12a) having an opening (20a) and a cavity (18a), wherein the opening (20a) is of a size and shape sufficient to cover the eye. The device also includes an ultrasonic generator (60a) coupled to the eyecup (12a) and is configured to apply ultrasonic energy to a fluid in the eyecup (12a) to remove debris from the tissue. A method of removing debris from tissue around an eye a subject is also disclosed. The method includes covering the subjects eye with an eyecup (12a) having a cavity (18a) and filling the cavity (18a) of the eyecup (12a) with a fluid to bathe the eyelid margin with the fluid. Applying ultrasonic energy to the fluid at a frequency and for a duration sufficient to disrupt debris around the eye.

A method and apparatus for treating ocular disorders such as blepharitis, meibomitis, and dry eye syndrome. The method includes using an electromechanical device to move a swab relative to the eye to create cyclical movement that impacts debris present at the eyelid margin and effectively removes the debris from the eye to encourage healing and prevent further digression of the health of the eye. The apparatus is an electromechanical device that includes a mechanical drive unit operatively connected to a swab to create a precise relative movement of the swab to the eye to remove debris present therein.

Certain aspects are directed to an ophthalmic specialty instrument configured to allow patients to treat MGD and other dry eye conditions themselves which is easy to operate and more effective. The ophthalmic specialty instrument comprises a main body of two arms with a distal end and a proximal end; wherein the two arms are pivotably coupled to a common connection point at the proximal end and a pair of angled and slightly wedged pressure plates are attached to the distal end of the two arms; wherein an exfoliating member is also attached to the proximal end; and wherein the pressure plates are angled downwardly and outwardly from the longitudinal planes of the arms and have gentle radius of curvature that match the curvature of eyelids to facilitate a substantially 90° approaching angle to the eyelid margin as opposed to making contact with the eyelids tangentially.

A hand-held device for home use is disclosed for cleaning eyelids, eye margins and eye lashes. The device includes a housing, which forms a handle, and a cleaning head, attached on one end. In accordance with an important aspect of the invention, a vibration generator is used to drive the cleaning head sonically. The sonically driven cleaning head is placed in contact with one or both eye lids for each eye and either held in a stationary position or moved from side to side or back and forth. The vibration of the cleaning head in contact with the soap and effectively scrubs the upper eyelid or lower eyelid without the need for vigorous scrubbing or significant agility. The vibrating cleaning head is a more effective daily home cleaning tool for eyelids and eyelashes than known devices with rotary swabs or sponges.

The invention involves forceps having rounded grasping tips. The rounded tips are configured to avoid puncturing an amniotic membrane during insertion over an ocular surface for the treatment of dry eye disease and inflammation of the eyes and to avoid injuring the conjunctiva during removal of an amniotic membrane from the ocular surface. The forceps have grasping tips at its distal end, wherein one of the grasping tips has a notch on its inside surface. The dimensions of the notch are configured to permit an eye doctor to securely and safely grasp a lip of an amniotic membrane insert for better insertion and removal from an ocular surface.

A phacoemulsification tip, including an aspiration tube presenting a cutting tip at a distal end. The aspiration tube has a tube wall presenting an internal face and an external face. The internal face supports at least one internally extending internal ridge. The internal ridge presents an internal distal face, an internal proximal face and an internal apex. The internal distal face meets the internal face at an acute angle measured internally. The internal ridge is structured to engage lens fragments separated from a crystalline lens to enhance proximal movement of the lens fragments and to inhibit distal movement of the lens fragments through the aspiration tube.